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Infinite Cylinder Optical (ICO) Tool Developed by Daniel Brandl allows the user to specify wavelength-dependent material refractive indexes for both the cylinder and surrounding medium, and to compute the optical scattering, absorption, and extinction as a function of wavelength or cylinder diameter.
MatScat is a MATLAB package by Jan Schäfer which contains different solutions for the scattering of electromagnetic radiation by a sphere (Mie theory) or an infinite circular cylinder.
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Matlab solutions for plane wave scattered by a dielectric sphere and a multi-layer sphere by Guangran Kevin Zhu.
LMie (Linearized Mie) by Greg McGarragh computes the scattering properties for polydisperse homogeneous spherical particles using Mie theory. What sets LMie apart from the many other Mie implementations available is that in addition to the typical scattering quantities LMie has the option to analytically generate derivatives of these quantities with respect to the input parameters.
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Matlab program by Michael Gallaspy and Rajan Chakrabarty to computute scattering and the internal field of a stratified sphere using the Mie theory and the Debye series approach.
Winsph by Steve Turley is a windows program for computing the near and far field intensities for acoustic scattering from spheres. The three cases of a hard sphere, soft sphere, and penetrable sphere are handled for homogenouis media.
MieConScat is a GUI/Console program for generating MIE SCATtering data as a table of cross sections as measured by optical particle counters (OPC). It is intended particularly for use when CONverting data between cross section and diameter space.
The Metal Nanoparticle (MNP) simulator is a GUI written by Guido Goldoni in Matlab as part of the NANOLAB project (www.nanolab.unimore.it).
MNP allows to simulate the absorption, extinction and scattering spectra of metallic nanoparticles dispersed in a solution. The material and size of the nanoparticles can be changed, as well as the type of solution, to highlight the size dependence of the optical properties of nano-materials, and their possible use, e.g., as sensors.
The MNP GUI uses the Mie theory to simulate spherical nanoparticles. MNP also tries to simulate the color of the solution as perceived by the human eye using colorimetric methods. The perceived color depends on the spectrum of the light source, which can also be changed.
Extinction and scattering spectra can be calculated from this page using the Mie theory based on Javascript. Extinction and scattering spectra can be calculated from this page using the Mie theory. The sphere dimension and composition and the refractive index of the embedding medium can be chosen. Qext and Qscatt are calculated, respectively the extinction and scattering cross-sections.
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